Anderson Gallego Montoya

Prof. Anderson Gallego Montoya

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Research Focus & Metrics

Academic Career Length

11Years (2016-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 February 2020 in Advanced Powder Technology
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Journal Article
Closed access
AMAnderson Gallego Montoya
Anderson Gallego Montoya
KCKaren Cacua
Karen Cacua
BHBernardo Herrera
Bernardo Herrera
DCDavid Cabaleiro
David Cabaleiro
MPManuel M. Piñeiro
Manuel M. Piñeiro
Luis LugoLuis Lugo
Luis Lugo

1 July 2020 in International Journal of Thermal Sciences
Verified
Journal Article
Closed access
KCKaren Cacua
Karen Cacua
Robison BuitragoRobison Buitrago
Robison Buitrago
EPElizabeth Pabón
Elizabeth Pabón
AMAnderson Gallego Montoya
Anderson Gallego Montoya
CZCamilo Zapata
Camilo Zapata
BHBernardo Herrera
Bernardo Herrera

1 May 2016 in Applied Thermal Engineering
Verified
Journal Article
Closed access
KCKaren Cacua
Karen Cacua
LOLuis Carlos Olmos-Villalba
Luis Carlos Olmos-Villalba
BHBernardo Herrera
Bernardo Herrera
AMAnderson Gallego Montoya
Anderson Gallego Montoya

1 April 2020 in Nano-Structures & Nano-Objects
Verified
Journal Article
Closed access
AMAnderson Gallego Montoya
Anderson Gallego Montoya
BHBernardo Herrera
Bernardo Herrera
Robison BuitragoRobison Buitrago
Robison Buitrago
CZCamilo Zapata
Camilo Zapata
KCKaren Cacua
Karen Cacua

1 April 2019 in International Journal of Thermal Sciences
Verified
Journal Article
Closed access
BHBernardo Herrera
Bernardo Herrera
FCFarid Chejne
Farid Chejne
MMMarcia Barbosa Henriques Mantelli
Marcia Barbosa Henriques Mantelli
JMJuan M Mejia
Juan M Mejia
KCKaren Cacua
Karen Cacua
AMAnderson Gallego Montoya
Anderson Gallego Montoya

23 November 2023 in Energies
Verified
Journal Article
Open access
PDF file
AMAnderson Gallego Montoya
Anderson Gallego Montoya
KCKaren Cacua
Karen Cacua
DGDavid Gamboa
David Gamboa
JRJorge Rentería
Jorge Rentería
BHBernardo Herrera
Bernardo Herrera
In this study, the effects of pristine carbon nanotubes (CNTs), sodium dodecylbenzene sulfonate (SDBS), and diesel blends on the ignition delay and burning rate are examined experimentally. For this purpose, single-droplet combustion tests were conducted in a combustion system for 21 days using CNTs at concentrations of 50 ppm and 100 ppm, which were dispersed in Colombian commercial diesel and stabilized by SDBS. Videos of the diesel droplet burning were obtained using a high-speed camera, and the Shadowgraph optical technique was used to observe the development of the droplet size during combustion. Thus, records of the process were collected, and the treatment was carried out using a MATLAB algorithm. The measurements and processing were carried out along with a stability study, which included measurements of dynamic light scattering (DLS), pH, potential Zeta, and properties such as thermal conductivity and surface tension. The results demonstrated that the temporal stability has a direct impact on the single-droplet combustion tests because a concentration of CNTs of 100 ppm showed a higher stability than those achieved by 50 ppm. Consequently, improvements were found with a concentration of 100 ppm—for instance, the thermal conductivity increased by about 20%, the ignition delay time increased by 16.2%, and the burning rate increased by 30.5%.